| 1 |
Mitochondrial apoptosis |
↑ mitochondrial dysfunction; ↑ caspase activation; ↑ apoptosis |
Potential cytotoxicity at high local concentrations |
G |
Core cytotoxic mechanism |
Most reproducible cancer-relevant axis; reported in NSCLC and other cancer models. |
| 2 |
p53 apoptosis axis |
↑ p53-linked apoptosis in susceptible models |
Context-dependent stress response |
G |
Apoptosis commitment |
Important in NSCLC models; relevance depends on p53 status and tumor genotype. |
| 3 |
Mitochondrial ROS increase |
↑ ROS; ↑ oxidative stress; ↑ apoptosis |
Possible oxidative irritation or cytotoxicity at high exposure |
R/G |
Stress-mediated cell death |
Strongest in colorectal cancer mechanistic work; may be secondary to membrane and mitochondrial stress. |
| 4 |
Cell cycle arrest |
↑ G1 arrest; ↓ proliferation; ↓ clonogenicity |
May suppress proliferation in exposed normal cells at sufficient concentration |
G |
Growth suppression |
Observed in melanoma and squamous-cell carcinoma models; cytostatic and cytotoxic effects can overlap. |
| 5 |
EMT migration invasion |
↓ migration; ↓ invasion; ↓ EMT markers |
Uncertain |
G |
Antimetastatic phenotype |
Relevant mainly to melanoma and cutaneous squamous-cell carcinoma preclinical models. |
| 6 |
Calpain 2 axis |
↑ calpain 2; ↓ proliferation and motility |
Uncertain |
G |
Context-specific tumor suppression |
Recent cutaneous squamous-cell carcinoma finding; promising but not yet broadly validated across cancers. |
| 7 |
Chemosensitization |
↑ sensitivity to selected anticancer agents; ↓ viability in combinations |
Potential additive toxicity if exposure is not tumor-selective |
G |
Combination leverage |
Evidence includes in-vitro synergy with oxaliplatin / fluorouracil and melanoma targeted-therapy models; clinical relevance unproven. |
| 8 |
Inflammatory mediator suppression |
Indirect relevance; tumor microenvironment effect uncertain |
↓ pro-inflammatory mediator production in activated monocytes |
R/G |
Anti-inflammatory support mechanism |
Better supported for dermatologic / antimicrobial use than direct oncology treatment. |
| 9 |
NRF2 antioxidant response |
↔ uncertain; possible adaptive response under oxidative stress |
↔ uncertain; possible protective response |
G |
Secondary contextual axis |
Do not mark as a primary NRF2 modulator unless a specific study supports the cancer model being entered. |
| 10 |
Clinical Translation Constraint |
Direct exposure activity exceeds likely systemic therapeutic exposure |
Topical irritation, sensitization, and ingestion toxicity constrain use |
G |
Limits translation |
Best interpreted as a topical / local-exposure lead or formulation candidate, not an established systemic anticancer agent. |